Incorporation of Carbon Capture Techniques in Industrial Processes: Challenges and Growth Opportunities

Description

Global Trends, Technological Breakthroughs, and Collaborative Pathways Transforming Carbon Capture

This study presents a comprehensive analysis of advanced carbon capture technologies as key enablers of industrial decarbonization in achieving global net-zero goals. It explores the integration of pre-combustion, post-combustion, and oxy-fuel pathways-each employing distinct sub-methods such as chemical looping, gas-liquid absorption, adsorption, membrane separation, cryogenic distillation, and calcium looping-to capture CO? emissions from hard-to-abate sectors, including cement, steel, power, and refining.

This study covers the following:

A comparative analysis of the core-carbon capture pathways by evaluating relevant technical and process parameters such as energy requirement, capture efficiency, system modularity, industrial integration, cost drivers, scalability, and retrofit potential across hard-to-abate sectors.
An in-depth examination of the innovation ecosystem, profiling major technology providers, commercial project developers, policymakers, and collaborative industry partnerships, alongside the latest academic advancements, evolving patent landscape, and funding initiatives that are collectively driving the commercialization and industrial adoption of carbon capture and storage technologies worldwide.

Product Code: DB5D

Strategic Imperatives

Why Is It Increasingly Difficult to Grow?
The Strategic Imperative 8
The Impact of the Top 3 Strategic Imperatives on Carbon Capture Techniques in Industrial Processes
Growth Opportunities Fuel the Growth Pipeline Engine
Research Methodology

Growth Opportunity Analysis

Scope of Analysis
Segmentation

Growth Generator

Growth Drivers
Growth Restraints

Carbon Capture at a Glance

Understanding Carbon Capture Technologies
Industrial CO2 Capture Methods-Value Chain
Pre-Combustion Capture Provides Lower Energy Penalties at High Pressure for Cleaner Fuel Production
Steam Methane Reforming Maximizes Hydrogen Yield with Incorporated Carbon Capture; Gas-Liquid Absorption Drives Efficient CO2 Capture Through Targeted Solvent Interaction
Gas-Liquid Absorption: Chemical Absorption Technologies are Preferred over Physical Absorption for Carbon Capture
Chemical Looping Enables Efficient CO2 Capture Through Solid Oxygen Carriers; Autothermal Reforming Enhances Hydrogen Yield with Self-Sustaining Heat Integration
Post-Combustion Capture Enables Cost-Effective Retrofits and Modular Deployment in Existing Power Plants
Adsorption Offers High CO2 Selectivity with Regenerable Solid Sorbents; Membrane Separation Enables Compact, Modular, and Chemical-Free CO2 Capture Solutions
Cryogenic Distillation Achieves Ultra-High Purity CO2 Through Low-Temperature Separation; Calcium Looping Enables Efficient CO2 Capture with Recyclable Sorbents and Low Energy Demand
Oxy-Fuel Combustion Enables Nearly 100% CO2 Capture, Eliminating NOx Emissions
Comparative Pathway Analysis for Carbon Capture Methods
Qualitative Analysis of Various Carbon Capture Methods

Innovations Ecosystem in Developing Carbon Capture Techniques

Shell plc Leads Commercialization Efforts in the Global Carbon Capture Landscape
Saipem Catalyzes Industrial Decarbonization by Delivering Carbon Capture at Scale
Other Key Stakeholders in the Industrial Carbon Capture Space

Key Funding Initiatives and Patent Landscape

China Leads IP Activity in the Industrial Carbon Capture Domain
Funding Initiatives by Global Stakeholders

Growth Opportunity Universe

Growth Opportunity 1: Scaling Industrial Carbon Capture for Hard-to-Abate Sectors
Growth Opportunity 2: Developing Carbon Capture Hubs and Shared CO2 Infrastructure
Growth Opportunity 3: Accelerating CO2 Utilization into Fuels, Chemicals, and Materials

Next Steps

Benefits and Impacts of Growth Opportunities
Next Steps
Legal Disclaimer